As the sole Manufacturing Engineer for Sub-Assembly at AuST Manufacturing, I manage the production and optimization of critical components feeding into final assemblies. My responsibilities span process optimization, quality assurance, automation, and continuous improvement to enhance efficiency, reliability, and compliance.
I optimize workflows to reduce bottlenecks, improve cycle times, and enhance productivity, introducing solutions that improve material handling, ergonomics, and documentation clarity. I manage NCRs and SCARs, ensuring effective corrective actions and refining quality checkpoints for sub-assembly components.
I oversee a manufacturing technician, managing task priorities to ensure smooth operations and timely production support. Additionally, I lead AI programming initiatives aimed at improving quality inspection by differentiating good and bad parts, which enhances defect detection accuracy.
I design and implement solutions, including fixtures, tooling, and process modifications, to reduce waste and improve workflow, resulting in lower rework rates and better first-pass yield. I also provide machine troubleshooting and maintenance to minimize downtime and ensure continuous production.
Using Lean Manufacturing and Kaizen principles, I drive process improvements in collaboration with operators, quality engineers, and management to enhance material quality, address setbacks, and maintain smooth production flow.
Passionate about automation, AI-driven quality control, and Lean Manufacturing in medical device production, I am committed to continuous learning, growth, and driving innovation within the industry.
As the sole Manufacturing Engineer for Sub-Assembly at AuST Manufacturing, I oversee the production and optimization of smaller components feeding into final assemblies. My role includes process optimization, quality assurance, automation, and continuous improvement to enhance efficiency, reliability, and compliance.
I analyze workflows to optimize cycle times, reduce bottlenecks, and enhance productivity. I’ve introduced improvements that increase efficiency, reduce material handling, enhance ergonomics, and refine documentation to clarify work instructions.
I manage NCRs and SCAR addressing component-related issues. Working with quality teams, I ensure defects are documented, root causes identified, and corrective actions implemented. Refining inspection criteria and quality checkpoints for sub-assembly components.
I oversee a manufacturing technician, managing tasks and priorities to ensure smooth operations and timely support for production needs.
I’m involved in AI programming to improve quality inspection. A key project uses AI to differentiate good and bad parts, enhancing defect detection accuracy. This requires collaboration with software developers, quality engineers, and production staff.
I design and implement solutions to improve production, including fixtures, tooling, and process modifications that reduce waste and enhance workflow. These efforts have lowered rework rates and improved first-pass yield.
I troubleshoot/maintenance machines to minimize downtime and ensure continuous production.
Using Lean Manufacturing and Kaizen principles, I drive process improvements. I collaborate with operators, quality engineers, and management to enhance material quality and address setbacks, ensuring smooth production and quality control.
Passionate about automation, AI-driven quality control, and Lean Manufacturing in medical device production, I look forward to learning, growing, and connecting with professionals to drive innovation.
Volunteer Work
• Community Tutor: College-Preparation (08/2017-2023)
• First Utah Robotics: Board Set up (2016 & 04/2017)
• Teacher at Sunday School (08/2015-05/2016)
• Annual Community Food and Clothes Drive
Research
• Graduate Research: Project Based Master’s Degree “Novel tendon-stimulating device” o The project consisted of the mechanization of locomotor training (LT) for gait rehabilitation in patients with incomplete spinal cord injury.
➢ Role: included aspects such as material selection (under a budget), design specifications, device design, building (hardware and software components), programming, device set-up, establishing measurement systems, testing, data acquisition, data analysis, and reports/presentations.
➢ Completed under supervision of Professor Sanford Meek.
• Undergraduate Thesis Completed at the University of Utah o The project consisted of the use of high intensity ultrasound to ablate tremor related in the thalamus to successfully prevent the symptom of uncontrolled shaking in patients.
➢ Role: Analysis of the acquired data using MATLAB.
Completed under supervision of Professor Viola Reiks.